local Widget = require 'Widget' local Text = require 'Text' local TextColumn = require 'TextColumn' local Line = require 'Line' local ScalePlot = require 'ScalePlot' local Util = require 'Util' local Patterns = require 'Patterns' local _MODULE_Y_ = 328 local _SEPARATOR_SPACING_ = 20 local _TEXT_SPACING_ = 20 local _PLOT_SEC_BREAK_ = 20 local _PLOT_HEIGHT_ = 56 local power_label_function = function(watts) return watts..' W' end local calculate_power = function(cr, prev_cnt, cnt, update_frequency) if cnt > prev_cnt then return (cnt - prev_cnt) * update_frequency * 0.000001 else return 0 end end local header = Widget.Header{ x = _G_INIT_DATA_.RIGHT_X, y = _MODULE_Y_, width = _G_INIT_DATA_.SECTION_WIDTH, header = 'POWER' } local _RIGHT_X_ = _G_INIT_DATA_.RIGHT_X + _G_INIT_DATA_.SECTION_WIDTH local pp01 = { labels = Widget.TextColumn{ x = _G_INIT_DATA_.RIGHT_X, y = header.bottom_y, spacing = _TEXT_SPACING_, 'Core', 'iGPU' }, values = Widget.TextColumn{ x = _RIGHT_X_, y = header.bottom_y, spacing = _TEXT_SPACING_, x_align = 'right', text_color = Patterns.BLUE, append_end = ' W', num_rows = 2 } } local _SEP_Y_ = header.bottom_y + _TEXT_SPACING_ + _SEPARATOR_SPACING_ local separator = Widget.Line{ p1 = {x = _G_INIT_DATA_.RIGHT_X, y = _SEP_Y_}, p2 = {x = _RIGHT_X_, y = _SEP_Y_} } local _PKG0_Y_ = _SEP_Y_ + _SEPARATOR_SPACING_ local pkg0 = { label = Widget.Text{ x = _G_INIT_DATA_.RIGHT_X, y = _PKG0_Y_, text = 'PKG 0' }, value = Widget.Text{ x = _RIGHT_X_, y = _PKG0_Y_, x_align = 'right', text_color = Patterns.BLUE, text = '', append_end = ' W' }, plot = Widget.ScalePlot{ x = _G_INIT_DATA_.RIGHT_X, y = _PKG0_Y_ + _PLOT_SEC_BREAK_, width = _G_INIT_DATA_.SECTION_WIDTH, height = _PLOT_HEIGHT_, y_label_func = power_label_function, } } local _DRAM_Y_ = _PKG0_Y_ + _PLOT_SEC_BREAK_ * 2 + _PLOT_HEIGHT_ local dram = { label = Widget.Text{ x = _G_INIT_DATA_.RIGHT_X, y = _DRAM_Y_, text = 'DRAM' }, value = Widget.Text{ x = _RIGHT_X_, y = _DRAM_Y_, x_align = 'right', text_color = Patterns.BLUE, text = '', append_end = ' W' }, plot = Widget.ScalePlot{ x = _G_INIT_DATA_.RIGHT_X, y = _DRAM_Y_ + _PLOT_SEC_BREAK_, width = _G_INIT_DATA_.SECTION_WIDTH, height = _PLOT_HEIGHT_, y_label_func = power_label_function, } } local _BATTERY_DRAW_Y_ = _DRAM_Y_ + _PLOT_SEC_BREAK_ * 2 + _PLOT_HEIGHT_ local battery_draw = { label = Widget.Text{ x = _G_INIT_DATA_.RIGHT_X, y = _BATTERY_DRAW_Y_, spacing = _TEXT_SPACING_, text = 'Battery Draw' }, value = Widget.CriticalText{ x = _RIGHT_X_, y = _BATTERY_DRAW_Y_, x_align = 'right', }, plot = Widget.ScalePlot{ x = _G_INIT_DATA_.RIGHT_X, y = _BATTERY_DRAW_Y_ + _PLOT_SEC_BREAK_, width = _G_INIT_DATA_.SECTION_WIDTH, height = _PLOT_HEIGHT_, y_label_func = power_label_function, } } local PKG0_PATH = '/sys/class/powercap/intel-rapl:0/energy_uj' local CORE_PATH = '/sys/class/powercap/intel-rapl:0:0/energy_uj' local IGPU_PATH = '/sys/class/powercap/intel-rapl:0:1/energy_uj' local DRAM_PATH = '/sys/class/powercap/intel-rapl:0:2/energy_uj' local prev_pkg0_uj_cnt = Util.read_file(PKG0_PATH, nil, '*n') local prev_core_uj_cnt = Util.read_file(CORE_PATH, nil, '*n') local prev_igpu_uj_cnt = Util.read_file(IGPU_PATH, nil, '*n') local prev_dram_uj_cnt = Util.read_file(DRAM_PATH, nil, '*n') local update = function(cr, update_frequency, is_using_ac) local pkg0_uj_cnt = Util.read_file(PKG0_PATH, nil, '*n') local core_uj_cnt = Util.read_file(CORE_PATH, nil, '*n') local igpu_uj_cnt = Util.read_file(IGPU_PATH, nil, '*n') local dram_uj_cnt = Util.read_file(DRAM_PATH, nil, '*n') TextColumn.set(pp01.values, cr, 1, Util.precision_round_to_string( calculate_power(cr, prev_core_uj_cnt, core_uj_cnt, update_frequency), 3)) TextColumn.set(pp01.values, cr, 2, Util.precision_round_to_string( calculate_power(cr, prev_igpu_uj_cnt, igpu_uj_cnt, update_frequency), 3)) local pkg0_power = calculate_power(cr, prev_pkg0_uj_cnt, pkg0_uj_cnt, update_frequency) local dram_power = calculate_power(cr, prev_dram_uj_cnt, dram_uj_cnt, update_frequency) Text.set(pkg0.value, cr, Util.precision_round_to_string(pkg0_power, 3)) ScalePlot.update(pkg0.plot, cr, pkg0_power) Text.set(dram.value, cr, Util.precision_round_to_string(dram_power, 3)) ScalePlot.update(dram.plot, cr, dram_power) prev_pkg0_uj_cnt = pkg0_uj_cnt prev_core_uj_cnt = core_uj_cnt prev_igpu_uj_cnt = igpu_uj_cnt prev_dram_uj_cnt = dram_uj_cnt if is_using_ac then Text.set(battery_draw.value, cr, 'A/C') ScalePlot.update(battery_draw.plot, cr, 0) else local current = Util.read_file('/sys/class/power_supply/BAT0/current_now', nil, '*n') local voltage = Util.read_file('/sys/class/power_supply/BAT0/voltage_now', nil, '*n') local power = current * voltage * 0.000000000001 Text.set(battery_draw.value, cr, Util.precision_round_to_string(power, 3)..' W') ScalePlot.update(battery_draw.plot, cr, power) end end Widget = nil Patterns = nil _MODULE_Y_ = nil _SEPARATOR_SPACING_ = nil _TEXT_SPACING_ = nil _PLOT_SEC_BREAK_ = nil _PLOT_HEIGHT_ = nil _RIGHT_X_ = nil _SEP_Y_ = nil _PKG0_Y_ = nil _DRAM_Y_ = nil _BATTERY_DRAW_Y_ = nil local draw = function(cr, current_interface, update_frequency, is_using_ac) update(cr, update_frequency, is_using_ac) if current_interface == 0 then Text.draw(header.text, cr) Line.draw(header.underline, cr) TextColumn.draw(pp01.labels, cr) TextColumn.draw(pp01.values, cr) Line.draw(separator, cr) Text.draw(pkg0.label, cr) Text.draw(pkg0.value, cr) ScalePlot.draw(pkg0.plot, cr) Text.draw(dram.label, cr) Text.draw(dram.value, cr) ScalePlot.draw(dram.plot, cr) Text.draw(battery_draw.label, cr) Text.draw(battery_draw.value, cr) ScalePlot.draw(battery_draw.plot, cr) end end return draw